A constraint–relaxation–recovery mechanism for stomatal dynamics
暂无分享,去创建一个
V. Lew | Mareike Jezek | A. Hills | M. Blatt
[1] R. Fischer,et al. Stomatal Opening: Role of Potassium Uptake by Guard Cells , 1968, Science.
[2] K. Raschke,et al. Stomatal opening quantitatively related to potassium transport: evidence from electron probe analysis. , 1971, Plant physiology.
[3] D. W. Sheriff,et al. Direct Measurements of Turgor Pressure Potentials of Guard Cells II. THE MECHANICAL ADVANTAGE OF SUBSIDIARY CELLS, THE SPANNUNQSPHASE, AND THE OPTIMUM LEAF WATER DEFICIT , 1976 .
[4] H. Meidner,et al. Direct Measurements of Turgor Pressure Potentials IV. NATURALLY OCCURRING PRESSURES IN GUARD CELLS AND THEIR RELATION TO SOLUTE AND MATRIC POTENTIALS IN THE EPIDERMIS , 1979 .
[5] P. Bannister,et al. Pressure and Solute Potentials in Stomatal Cells of Tradescantia virginiana , 1979 .
[6] Guard Cell Pressures and Wall Properties during Stomatal Opening , 1982 .
[7] U. Maier-Maercker. The role of peristomatal transpiration in the mechanism of stomatal movement , 1983 .
[8] T. Ogawa,et al. Kinetic properties of the blue-light response of stomata. , 1985, Proceedings of the National Academy of Sciences of the United States of America.
[9] J. Mccoll,et al. Mass-Action Expressions of Ion Exchange Applied to Ca, H, K, and Mg Sorption on Isolated Cells Walls of Leaves from Brassica oleracea. , 1987, Plant physiology.
[10] D. Bowling. Measurement of the Apoplastic Activity of K+ and Cl− in the Leaf Epidermis of Commelina communis in Relation to Stomatal Activity , 1987 .
[11] H. Sentenac,et al. pH and Ionic Conditions in the Apoplast , 1991 .
[12] Karl H. Mühling,et al. Determination of apoplastic K+ in intact leaves by ratio imaging of PBFI fluorescence , 1997 .
[13] R. Hedrich,et al. Changes in apoplastic pH and membrane potential in leaves in relation to stomatal responses to CO2, malate, abscisic acid or interruption of water supply , 2001, Planta.
[14] F. Sack,et al. Control of Stomatal Distribution on the Arabidopsis Leaf Surface , 2002, Science.
[15] F. Woodward,et al. The role of stomata in sensing and driving environmental change , 2003, Nature.
[16] J. W. Outlaw. Integration of Cellular and Physiological Functions of Guard Cells , 2003 .
[17] W. Outlaw Jr. Integration of Cellular and Physiological Functions of Guard Cells , 2003 .
[18] Malate metabolism in isolated epidermis of Commelina communis L. in relation to stomatal functioning , 2004, Planta.
[19] K. Raschke,et al. Stomatal movement in Zea mays: Shuttle of potassium and chloride between guard cells and subsidiary cells , 1971, Planta.
[20] John Yen,et al. Introduction , 2004, CACM.
[21] E. Macrobbie. Osmotic measurements on stomatal cells ofCommelina communis L. , 1980, The Journal of Membrane Biology.
[22] E. Macrobbie,et al. Ion content and aperture in “isolated” guard cells ofCommelina communis L. , 1980, The Journal of Membrane Biology.
[23] E. Macrobbie,et al. Potassium content and aperture in “intact” stomatal and epidermal cells ofCommelina communis L , 1980, The Journal of Membrane Biology.
[24] Graham D. Farquhar,et al. The Mechanical Diversity of Stomata and Its Significance in Gas-Exchange Control[OA] , 2006, Plant Physiology.
[25] S. Merlot,et al. Constitutive activation of a plasma membrane H+‐ATPase prevents abscisic acid‐mediated stomatal closure , 2007, The EMBO journal.
[26] K. Mott. Leaf hydraulic conductivity and stomatal responses to humidity in amphistomatous leaves. , 2007, Plant, cell & environment.
[27] J. Shope,et al. Stomatal responses to humidity in isolated epidermes. , 2008, Plant, cell & environment.
[28] J. Schroeder,et al. SLAC1 is required for plant guard cell S-type anion channel function in stomatal signalling , 2008, Nature.
[29] T. Lawson,et al. Reductions in mesophyll and guard cell photosynthesis impact on the control of stomatal responses to light and CO2 , 2008, Journal of experimental botany.
[30] Hideyuki Takahashi,et al. CO2 regulator SLAC1 and its homologues are essential for anion homeostasis in plant cells , 2008, Nature.
[31] J. Berry,et al. Stomata: key players in the earth system, past and present. , 2010, Current opinion in plant biology.
[32] Adrian Hills,et al. Systems Dynamic Modeling of a Guard Cell Cl− Channel Mutant Uncovers an Emergent Homeostatic Network Regulating Stomatal Transpiration1[W][OA] , 2012, Plant Physiology.
[33] Anna Amtmann,et al. OnGuard, a Computational Platform for Quantitative Kinetic Modeling of Guard Cell Physiology1[W][OA] , 2012, Plant Physiology.
[34] M. Blatt,et al. The trafficking protein SYP121 of Arabidopsis connects programmed stomatal closure and K⁺ channel activity with vegetative growth. , 2012, The Plant journal : for cell and molecular biology.
[35] Anna Amtmann,et al. Systems Dynamic Modeling of the Stomatal Guard Cell Predicts Emergent Behaviors in Transport, Signaling, and Volume Control1[W][OA] , 2012, Plant Physiology.
[36] S. J. Birks,et al. Terrestrial water fluxes dominated by transpiration , 2013, Nature.
[37] T. Lawson,et al. Stomatal Size, Speed, and Responsiveness Impact on Photosynthesis and Water Use Efficiency1[C] , 2014, Plant Physiology.
[38] Adrian Hills,et al. Exploring emergent properties in cellular homeostasis using OnGuard to model K+ and other ion transport in guard cells☆☆☆ , 2014, Journal of plant physiology.
[39] Yizhou Wang,et al. Systems Analysis of Guard Cell Membrane Transport for Enhanced Stomatal Dynamics and Water Use Efficiency1[W][OPEN] , 2014, Plant Physiology.
[40] N. Holbrook,et al. The Competition between Liquid and Vapor Transport in Transpiring Leaves1[W][OPEN] , 2014, Plant Physiology.
[41] Howard Griffiths,et al. An Optimal Frequency in Ca2+ Oscillations for Stomatal Closure Is an Emergent Property of Ion Transport in Guard Cells1[CC-BY] , 2015, Plant Physiology.
[42] T. Jegla,et al. Guard cell sensory systems: recent insights on stomatal responses to light, abscisic acid, and CO2. , 2016, Current opinion in plant biology.
[43] T. Lawson,et al. Rethinking Guard Cell Metabolism1[OPEN] , 2016, Plant Physiology.
[44] T. Lawson,et al. Blue Light Induces a Distinct Starch Degradation Pathway in Guard Cells for Stomatal Opening , 2016, Current Biology.
[45] V. Lew,et al. An Optimal Frequency in Ca 2 + Oscillations for Stomatal Closure Is an Emergent Property of Ion Transport in Guard Cells 1 [ CC-BY ] , 2016 .
[46] Mareike Jezek,et al. The Membrane Transport System of the Guard Cell and Its Integration for Stomatal Dynamics1[CC-BY] , 2017, Plant Physiology.
[47] Diana Santelia,et al. Transitory Starch Metabolism in Guard Cells: Unique Features for a Unique Function1[OPEN] , 2017, Plant Physiology.
[48] G. Bonan,et al. Stomatal Function across Temporal and Spatial Scales: Deep-Time Trends, Land-Atmosphere Coupling and Global Models1[OPEN] , 2017, Plant Physiology.
[49] Lawren Sack,et al. The Sites of Evaporation within Leaves1[OPEN] , 2017, Plant Physiology.
[50] M. Blatt,et al. Stomatal clustering in Begonia associates with the kinetics of leaf gaseous exchange and influences water use efficiency , 2017, Journal of experimental botany.
[51] Howard Griffiths,et al. Global Sensitivity Analysis of OnGuard Models Identifies Key Hubs for Transport Interaction in Stomatal Dynamics1[CC-BY] , 2017, Plant Physiology.
[52] J. C. Villarreal,et al. Hornwort Stomata: Architecture and Fate Shared with 400-Million-Year-Old Fossil Plants without Leaves1 , 2017, Plant Physiology.
[53] M. Blatt,et al. Speedy Grass Stomata: Emerging Molecular and Evolutionary Features. , 2017, Molecular plant.
[54] E. Nevo,et al. Molecular Evolution of Grass Stomata. , 2017, Trends in plant science.
[55] V. Lew,et al. Unexpected Connections between Humidity and Ion Transport Discovered Using a Model to Bridge Guard Cell-to-Leaf Scales[CC-BY] , 2017, Plant Cell.
[56] M. Blatt,et al. Stomatal Response to Humidity: Blurring the Boundary between Active and Passive Movement , 2018, Plant Physiology.